Precision in Deuterated
Compounds & Labelling
Deuterium (D) or 2H is a naturally-occurring, stable, non-radioactive isotope of Hydrogen widely used for labelling through hydrogen–deuterium (H/D) exchange reactions.
Advanced Isotope Labelling For Molecular Research
Deuterium (D) or 2H is a naturally-occurring, stable, non-radioactive isotope of Hydrogen which is widely used for labeling. It is prepared by hydrogen–deuterium (H/D) exchange reaction using either D2 or D2O along with the catalyst.
Other than Deuterium, main isotopes routinely used are 1H, 13C and 15N, with a more sparse use of 31P, 19F and 17O.
Utilize naturally-occurring deuterium for safe, reliable molecular tracing.
Prepared via hydrogen-deuterium exchange utilizing D2 or D2O with specialized catalysts.
Incorporate 1H, 13C, 15N, alongside selective 31P, 19F, and 17O labelling.
High-purity standards engineered for advanced biochemical applications.
Detection Through MS, IR & NMR
Isotope labeled compounds are used in chemistry and biochemistry to understand reaction mechanisms, metabolic pathway, metabolic transformations and interactions because they have different masses and can be detected by Mass Spectroscopy (MS) and different vibration modes which can be detected by IR and NMR.
Mass Spectroscopy (MS)
Utilizing distinct mass differences for precise identification and quantification of labeled analytes.
- Mass shift tracking
- Trace detection
Infrared Spectroscopy (IR)
Detecting altered atomic vibration modes resulting from heavier isotopic mass substitution.
- Vibrational frequency
- Bond stretching shifts
- Functional group analysis
Nuclear Magnetic Resonance (NMR)
Advanced magnetic resonance for mapping molecular structures, interactions, and conformations.
- 1H, 13C, 15N nuclei
- Interaction mapping
- Structural elucidation
Metabolic Pathways
Tracking biotransformations and metabolic routes using stable isotope-labeled precursors.
- Pathway mapping
- Biotransformation study
- Kinetic isotope effects
Reaction Mechanisms
Unraveling complex organic and biochemical steps through targeted isotopic substitution.
- Intermediate tracking
- Mechanism validation
Broadly Employed Across Scientific Fields
Deuterium labeled standards are broadly employed in organic chemistry, organometallic chemistry, enzymology, spectroscopy, pharmacology, and many other fields, enabling breakthrough discoveries and robust analytical validations.
STANDARDS
High-Purity Standards
For Your Research
Engineered with rigorous isotopic enrichment and comprehensive analytical validation.
High Isotopic Purity
Exceptional deuterium incorporation and chemical purity for reliable data.
Catalytic H/D Mastery
Advanced H/D exchange methodologies utilizing D2 and D2O.
Comprehensive Validation
Thoroughly verified via MS, IR, and NMR spectroscopic profiling.
Global Research Support
Trusted standards deployed across pharmacology and organic chemistry worldwide.
From Exchange to Spectroscopic Validation
A systematic pathway to prepare, label, and characterize stable isotope-labeled compounds.
Precursor Design
Select target molecules and optimal labeling sites for exchange.
H/D Exchange
Execute catalytic hydrogen-deuterium exchange using D2 or D2O.
MS Analysis
Verify molecular mass shifts and isotope incorporation ratios.
IR & NMR Profiling
Confirm vibrational modes and atomic connectivity via spectroscopy.
Standard Delivery
Supply certified deuterated standards with complete analytical dossiers.
Ready to Source Your Deuterium-Labelled
& Isotope Standards?
Partner with Varanous Labs for high-purity deuterated compounds prepared via advanced H/D exchange for your research.